Overview of Maximer
This foundational section defines the medicine Maximer by its core properties, composition, and pharmacological classification, strictly excluding usage instructions, dosages, side effects, or warnings.
| Property | Description |
|---|---|
| Active ingredient | Cefepime |
| Form | Sterile Powder for Solution for Injection |
| Pharmacological class | Fourth-Generation Cephalosporin Antibiotic |
| Common use | Clearing serious bacterial infections |
| Origin | Semi-synthetic |
Maximer: Definition and Pharmacological Classification
Maximer is a semi-synthetic medication classified as a fourth-generation cephalosporin antibiotic, whose active ingredient is Cefepime. This agent belongs to the broader beta-lactam family of drugs, which represents the foundation for many potent anti-bacterial agents. Its general purpose is to act as a potent bactericidal agent for eliminating susceptible bacterial infections. Maximer is a prescription-only drug, typically administered in hospital settings for patients requiring systemic antimicrobial therapy.
The core substance, Cefepime (often present as Cefepime hydrochloride), is engineered for high efficacy. Cefepime is a broad-spectrum antibiotic used to treat serious bacterial infections, including those resistant to older agents.
Composition and Physical Form of Cefepime
Maximer is supplied as a sterile powder for solution for injection, a dry preparation that requires reconstitution with a suitable diluent, such as Sterile Water for Injection, immediately before being administered parenterally. It is a single active ingredient product, containing only Cefepime alongside necessary excipients. The preparation is stabilized by the inclusion of L-arginine, which serves as a buffering agent in the formulation. This chemical stabilizer ensures the final solution maintains the correct properties and is safe for intravenous or intramuscular injection.
Unique Action of Cefepime Against Bacteria
Cefepime works by physically disrupting the cell wall of susceptible bacteria, a mechanism that qualifies it as a bactericidal agent. This disruption of bacterial cell wall synthesis is achieved by binding to key proteins within the bacteria. The critical advantage of Maximer lies in its high resistance to most beta-lactamases, the defense enzymes bacteria use to deactivate antibiotics. By evading this enzymatic attack, Cefepime retains its high efficacy against a wide range of Gram-positive and Gram-negative bacteria. Cefepime’s mechanism allows it to exert its bactericidal activity despite the presence of beta-lactamase enzymes. This enhanced resistance capability provides a reliable approach for clearing systemic infections, such as those that may affect the lungs or urinary tract.
Regulatory References

